Embedded Flash Memory SCALE TODAY RAW NAND MANAGED NAND OWN TOMORROW

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1 Embedded Flash Memory SCALE TODAY RAW NAND MANAGED NAND OWN TOMORROW

2 EMBEDDED MEMORY 2 Content History and Mission 3 5 Embedded Flash Memory 6 12 RAW NAND 7 9 Managed NAND Toshiba Automotive Solutions 12 Design Guideline e-mmc 13 Technical data 14 15

3 3 EMBEDDED MEMORY Inventor of Flash Memory INNOVATION IS OUR TRADITION Silica wafers are formed from highly pure, nearly defect-free single crystalline material: the starting point for any integrated circuits. In 1984 Toshiba developed a new type of semiconductor memory called flash memory. Later in 1987, NAND flash memory was developed that raised electronic equipment to the next level. The NAND flash market has grown rapidly, with flash memory becoming an internationally standardised memory device. Toshiba, the inventor of flash memory, has thus carved out a path to a new era in which innovations are increased by the opportunities of NAND flash. SPEED UP DIGITAL PROCESSES Storing and processing data has always been an important aspect of all digital processes. But in the last years it increased to one of the key technologies for industry 4.0, smart mobility, cloud technology and artificial intelligence, because smart ideas and innovations have to be ready for markets right away with the highest reliability of storage components. With our embedded memory solutions, Toshiba is the partner for all smart markets and fast moving industries. Toshiba, the inventor of flash memory in 1984, provides a highly grade of innovation combined with highly reliable security now and in the future. PARTNERSHIP IS OUR PASSION Our success is based on our strong customer focus: Your metrics are our metrics. The result is a broad range of industry-leading flashbased storage solutions. Our products are designed to meet your specific engineering demands. TOSHIBA EMBEDDED MEMORY THE KEY TO A SMART FUTURE Embedded memory connects us with the things that surround and serve us for more efficiency, comfort and sustainability.

4 EMBEDDED MEMORY 4 Toshiba's Milestones World's first flash memory World's first mass production of NAND flash memory World's first 3D flash memory technology announced World's first 15nm 128 NAND flash memory Invention of the world's first NAND flash memory Key milestones for investment and development of Toshiba Flash Technology World's first SLC NAND flash memory World's first From the invention of flash memory in 1984 to today s breakthrough BiCS FLASH 3D technology (BiCS stands for "Bit Column Stacked ), Toshiba continues to move the industry forward. Whatever the digital future demands, we will keep developing the right solutions for our customers. Demanding change The economy's digital transformation is resulting in a massive increase of data processing, storage and traffic.

5 5 EMBEDDED MEMORY Layer Layer Layer World's first 48-layer 3D BiCS FLASH TM Mass production of 96-layer BiCS FLASH TM By 2020, 60% of all enterprises will have organisation-wide digital transformation platform strategies Mass production of 64-layer BiCS FLASH TM By the end of 2019, digital transformation spending is expected to reach $1.7T, up 42% from 2017 By 2021, at least 50% of global GDP will be digitised with growth driven by digitally enhanced offerings, operations and relationships 165 ZB 1 zettabyte (ZB) = bytes = 1 billion terabytes (TB) 15 ZB

6 EMBEDDED MEMORY 6 EMBEDDED FLASH MEMORY SLC NAND BENAND Serial NAND e-mmc UFS Toshiba offers a wide range of advanced Flash Memory technology for all kind of applications like consumer electronics, mobile technology and industrial applications such as robotics. NAND Flash Memory requires an appropriate management, which has to cover tasks like Bad Block Management, Wear Leveling, Garbage Collection and ECC Error Correction. Either these functions are supported by the host system in combination with raw NAND Memory, or it is covered instantly inside a managed NAND by utilizing an integrated memory controller. The selection between these basic different approaches to control a NAND memory defines the individual host requirements and interface options. For managed NAND there are JEDEC specified Standard-Interfaces supported, enabling the developer to easily design the required memory solution. RAW NAND With raw NANDs like SLC NAND, BENAND and Serial NAND we provide best in class endurance and data retention for sensitive or frequently used data. MANAGED NAND For applications that demand high-speed performance and power efficiency like mobile and automotive uses our managed NANDs e-mmc and UFS support reliable processes at the highest standards. They provide higher capacity and faster programming. Toshiba 3D NAND - BiCS Flash Metal Gate Bit Line Tunnel Layer Charge Trap Block Layer Silicon Word Line BiCS2 : 48 layers BiCS3 : 64 layers BiCS4 : 96 layers Our cutting-edge 3D BiCS FLASH technology with 64- and 96-layer stacking make a powerful memory solutions possible. It gives BiCS FLASH far higher die area density compared to 2D NAND. BiCS FLASH reduces the chip size by optimizing both circuit technology and the manufacturing process.

7 7 RAW NAND SLC NAND Reliability and Performance Toshiba s advanced Flash Memory technology offers SLC NAND providing best in class endurance and data retention for sensitive or frequently used data in a system. For long lasting products or systems working with extremely high data throughput between the host and the memory, Toshiba SLC is the optimal solution. CAPACITIES: SPECIFICATIONS FEATURES Density Technology ECC (Error Correction Code) Temperature Package SLC NAND Required on Host Side -40 C to 85 C 0 C to 70 C TSOP and BGA KEY FEATURES: Extended temperature range TSOP and BGA package ADVANTAGES Broad line up to cover customers' demands for different densities Leading-edge technology for cost optimisation Long data retention or extreme write/erase performance Small package variation available to reduce board space by 48 % (up to 8 ) Produced in the world s largest, leading edge technology flash factory APPLICATIONS: Industrial Applications Consumer Electronics Multimedia Applications Smart Metering & Intelligent Lighting Smart Applications

8 RAW NAND 8 BENAND TM Reliability and Performance Toshiba s BENAND removes the burden of Error Correction Code (ECC) from the host processor by offering ECC embedded in the hardware while keeping the same specification, high reliability and performance as a raw SLC. CAPACITIES: SPECIFICATIONS FEATURES Density Technology ECC (Error Correction Code) Temperature Package BENAND TM SLC WITH EMBEDDED ECC FOR BOM REDUCTION AND SYSTEM FLEXIBILITY BENAND TM Raw SLC NAND 8bit ECC Raw SLC NAND 43nm Data read from SLC is already error corrected Data read from SLC is not error corrected BENAND TM (SLC+ECC) 1 8 Embedded on Memory Chip -40 C to 85 C 0 C to 70 C TSOP and BGA HOST SYSTEM Main CPU Memory Controller 1bit ECC KEY FEATURES: 1 8 Same reliability and performance as raw SLC Same Hardware interface and package as raw SLC ADVANTAGES: Broad line-up to cover customers' demands for different densities 4 APPLICATIONS: Industrial Applications Consumer Electronics Multimedia Applications Leading edge technology for cost optimisation Long data retention or extreme write/erase performance Small package variation available to reduce board space by 48 % (up to 8 ) With BENAND no ECC operation is required on the host side Produced in the world s largest, leading edge technology flash factory Smart Metering & Intelligent Lighting Smart Applications

9 9 RAW NAND SERIAL NAND SLC NAND with SPI Interface Toshiba s new line-up of -based Serial NAND flash memory products is compatible with the widely used Serial Peripheral Interface (SPI), giving users access to SLC NAND flash memory with a low pin count, small package and large capacity. CAPACITIES: 1 8 KEY FEATURES: 2 4 SPECIFICATIONS FEATURES SERIAL NAND Density 1 8 Technology SLC Interface Quad-SPI (Serial Peripheral Interface) ECC (Error Correction Code) Embedded on Memory Chip Temperature -40 C to 85 C Package 8 pin WSON SERIAL NAND SLC WITH ECC AND SPI INTERFACE 1 8 Compatible with SPI Standard Extended temperature range WSON package On-chip hardware ECC which can be turned off/on Unique Bit flip report function Data protection feature High speed sequential read mode SPI (x1, x2, x4) Mode 0, Mode 3 ADVANTAGES: Broad line-up to cover customers' demands for different densities ECC SLC NAND SPI INTERFACE SCLK SI/SO0 SI/SO1 CS# HOLD#/SO3 WP#/SO2 Leading-edge technology for cost optimization Long data retention or extreme write/erase performance Small package for reduced board space Standardised high-speed serial interface (SPI) No ECC operation is required on the host side Produced in the world s largest, leading edge technology flash factory APPLICATIONS: Industrial Applications Consumer Electronics Multimedia Applications Smart Metering & Intelligent Lighting Smart Applications

10 MANAGED NAND 10 e-mmc Cost Effective Mass Storage e-mmc is a family of advanced and highly efficient NAND flash memory with an integrated controller and enhanced memory management. Based on an interface standardised by JEDEC, Toshiba s e-mmc offers the optimal solution for applications where higher data volumes need to be stored in a cost-efficient way. It is fully compliant with the Multimedia Card Association (MMCA) high-speed memory interface standard. SPECIFICATIONS FEATURES e-mmc EXTENDED TEMP. e-mmc Density Technology 15nm FG / BiCS 3D NAND 15nm JEDEC Version 5.0 / Temperature -25 C to 85 C -40 C to 105 C Package e-mmc DESIGN GUIDELINE & DESIGN CHECK SHEET To support your e-mmc design, Toshiba offers a design guideline and a design check sheet. The design guideline highlights some of the key topics to be considered when selecting and utilising a Toshiba e-mmc. The design check sheet can be used by the developer to share more detailed information about the individual usage scenario with Toshiba. Both files are available at your local Toshiba representative or qualified distributor. e-mmc ENHANCED USER DATA AREA FBGA Toshiba e-mmc products support the JEDEC compliant Enhanced User Data Area, also called pseudo-slc. For applications requiring the memory to perform with higher write/erase cycles than MLC NAND can offer, the e-mmc provides the option to build a partition which offers pseudo-slc performance. CAPACITIES: 4 32 KEY FEATURES: nm FG / BiCS 3D NAND MLC technology Conforms to the latest JEDEC Version 5.0 and 5.1 Integrated memory management: Error correction code Bad block management Wear-levelling Garbage collection Standard and extended temperature range of up to 105 C FBGA package ADVANTAGES Higher Interface speed HS400 in accordance with JEDEC 5.x Managed memory Package, interface, features, commands, etc. are standard Utilises high quality Toshiba MLC NAND flash memory in combination with a Toshiba origin developed controller Produced in the world s largest, state-of-the-art factory for flash technology APPLICATIONS: Industrial Applications Consumer Electronics Multimedia Applications Smart Metering & Intelligent Lighting Smart Applications

11 11 MANAGED NAND UFS High Performance Mass Storage Toshiba s flash memories with an integrated controller provide error correction, wear levelling, bad-block management, etc. They have an interface compliant with JEDEC/UFS Version 2.1 / 3.0, eliminating the need for users to perform NAND-specific control. The new full-duplex serial high-speed interface offers superior performance. CAPACITIES: KEY FEATURES: SPECIFICATIONS FEATURES Density Technology COMPARING THE PERFORMANCE: e-mmc Sequential Read UFS 230% up UFS UNIVERSAL FLASH STORAGE 70% up BiCS 3D NAND JEDEC Version 2.1 / 3.0 Temperature -25 C to 85 C Package 153 ball FBGA (11.5 x 13 mm 2 ) BiCS Flash TM Technology (3D NAND) Conforms to JEDEC Version 2.1 / 3.0 Integrated memory management: Error correction code Bad block management Wear-levelling Garbage collection Standard temperature range 153 ball BGA FBGA package High Speed Serial interface ADVANTAGES High speeds up to 1160 MB/sec / 2320 MB/sec Managed memory Package, interface, features, commands, etc. are standard Utilises high quality Toshiba BiCS Flash TM memory in combination with a Toshiba origin developed controller Produced in the world s largest, leading edge technology flash factory APPLICATIONS: MB/s e-mmc v5.1 UFS v2.1 HS-G3 UFS v3.0 HS-G4 Consumer Electronics Multimedia Applications Industrial Applications Smart Applications

12 AUTOMOTIVE 12 e-mmc / UFS Automotive e-mmc / UFS for automotive demands E-mobility, autonomous driving, higher demands on safety and sustainability automotive industries are once more leading in innovation and technology. For these smart and connected vehicles, reliable storage solutions are mandatory. Toshiba provides one of the key technologies for wireless communication, information systems and Advanced Driver Assistance Systems (ADAS). Wireless Communication Telematics V2X Gateway Information Full-TFT Cluster IVI Navigation ADAS Event Data Recorder ADAS Route Decision ADAS Image Recognition Cloud Storage KEY FEATURES: AEC-Q100 qualified Compliant with IATF16949 Temperature range: Automotive Grade 2 (-40 C ~ +105 C) Conforms to JEDEC standard Highly reliable 15nm MLC technology Integrated memory management: Error correction code Bad block management Wear-levelling Garbage collection Automotive specific functions AUTOMOTIVE APPLICATIONS: In-Vehicle Infotainment (IVI) Advanced driver-assistance systems (ADAS) Cluster Telematics Gateway etc. e-mmc AEC-Q100 GRADE 2 DENSITY PART NUMBER JEDEC STANDARD 8 THMJG6C1LBAB7 16 THMJG7C2LBAB8 32 THMJG8C4LBAB8 64 THMJG9C8LBAB8 MAX. SPEED (MB/s) JEDEC POWER SUPPLY VOLTAGE Vcc (V) VccQ (V) TEMPERATURE PACKAGE -40 C to 105 C FBGA153 UFS AEC-Q100 GRADE 2 DENSITY PART NUMBER JEDEC STANDARD 16 THGAF9G7L1LBAB7 32 THGAF9G8L2LBAB7 64 THGAF9G9L4LBAB8 128 THGAF9T0L8LBAB8 MAX. SPEED (MB/s) POWER SUPPLY VOLTAGE Vcc (V) VccQ (V) TEMPERATURE PACKAGE JEDEC C to 105 C FBGA153

13 13 DESIGN GUIDELINES Design Guideline MANAGED NAND e-mmc TEMPERATURE RANGE The standard operational temperature is -25 C ~+85 C If extended temperature range is required, Toshiba offer a product group with -40 C ~+105 C Important is to check at what typical temperature the e-mmc will actually be used in average The given range of temperature is just showing the operational area for the e-mmc, but does not indicate how long the expected data retention will be available if used under very high temperature condition. If the e-mmc will be operated constantly at significant higher temperature than 40 C, it is strongly recommended to discuss with Toshiba about the individual use case, as this could lead to unexpected short data retention. Please utilize the Design Check Sheet to communicate this with Toshiba. Optional way to make data more robust against higher temperature is to use the Enhanced User Data Area or so called pseudo-slc. Note that this will halve the available density. SPEED PERFORMANCE There is a relation between the density and the write / read performance Please check the individual data sheet of the product If the application requires a faster data throughput than the standard e-mmc can offer, there are options like this: A) If mainly read speed is targeted to be improved, the change from HS200 to HS400 interface is a possible solution. Note: HS400 is available from JEDEC 5.0 onwards and require an additional pin for the interface. B) If mainly the write speed is targeted to be improved, the change to the Enhanced User Data Area or so called pseudo-slc would be very efficient. Note that this will halve the available density. DATA RETENTION & WRITE / ERASE CYCLE Main influence on the data retention: Number of write/erase cycles during life time and the operation temperature The MLC based NAND inside an e-mmc offers ~ 3K write erase cycles at 40 C. If this is sufficient for the expected life time of a product using the e-mmc strongly depends on the individual usage scenario. For e-mmc the WAF (Write Amplification Factor) has to be considered in the calculation of the expected lifetime of the memory Formula: Days until 1 year data retention limit is reached RESULT IS NON-BINDING = Number of write erase cycles offered by the NAND per write to Memory X X Number of writes per day Total available density in X WAF If based on this tentative calculation the lifetime of the e-mmc under a given usage scenario is not sufficient in relation to the expected life time of the product there are options to improve the situation A) Use the Enhanced User Data Area or so called pseudo-slc. This will increase the available write erase cycles from ~3K to up to ~max.20k (@40 C). Note: This will halve the available density. B) Increase the density of the e-mmc. The more density is available, the more area for wear leveling is usable for the memory controller, so the w/e stress for the individual cells is reduced. JEDEC BACKWARD COMPATIBILITY JEDEC Association is defining the standard of e-mmc, e.g. pin-layout, register naming and utilization, power supply, controller features For each update on these standards a new number is given e.g. 4.5, 5.0 and 5.1. A new number shows that this generation of e-mmc supports features of the generation before plus new enhanced features A design made for an older Version of e-mmc (e.g. 4.5) can use the latest generation e-mmc (e.g. 5.1) as well. Just the additional new features or interface options of the new generation are not available, but all features of the old generation are still implemented in the new generation NOTE: Possible obstacle can be the driver of the MMC interface on the host. This may initially ask for the JEDEC version of the e-mmc and may stop in case the return value is an unknown number to this driver. Here the driver needs to be updated to avoid this issue. DATA LOADING BEFORE SOLDERING The solder process is stressing the NAND cell extremely due to the high temperature of ~260 C There is a potential negative influence on the data retention or danger for data loss. Toshiba e-mmc offers a special Firmware feature, to avoid data loss during the soldering process. Note: There are limitation in the maximum size of data which can be handled by this feature. Please check details with Toshiba via the Design Check Sheet.

14 SPECIFICATIONS 14 Product list SLC NAND DENSITY PART NUMBER TECHN. PAGE SIZE VCC ECC TEMPERATURE PACKAGE TC58NVG0S3HTA00 ( ) x 8 bit 3.3V TC58NYG0S3HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x TC58NVG0S3HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 8bit/512B TC58NVG0S3HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TC58NYG0S3HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TC58NVG0S3HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TC58NVG1S3HTA00 ( ) x 8 bit 3.3V TC58NYG1S3HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 TC58NVG1S3HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 8bit/512B TC58NVG1S3HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TC58NYG1S3HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TC58NVG1S3HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TH58NVG2S3HTA00 ( ) x 8 bit 3.3V TC58NVG2S0HTA00 ( ) x 8 bit 3.3V TC58NVG2S0HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 TH58NVG2S3HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 TH58NVG2S3HBAI4 ( ) x 8 bit 3.3V 8bit/512B -40 C to 85 C 63BGA 9 x 11 TH58NYG2S3HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 TC58NVG2S0HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TC58NYG2S0HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 TC58NVG2S0HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TC58NYG2S0HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TH58NVG3S0HTA00 ( ) x 8 bit 3.3V TH58NVG3S0HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TH58NYG3S0HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 8bit/512B TH58NVG3S0HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 TH58NVG3S0HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TH58NYG3S0HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TH58NVG4S0HTA20 ( ) x 8 bit 3.3V 8bit/512B TH58NVG4S0HTAK0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 TC58NVG5H2HTA00 ( ) x 8 bit 3.3V 24bit/1024B TC58NVG5H2HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x TH58NVG6H2HTAK0 ( ) x 8 bit 3.3V 24bit/1024B -40 C to 85 C 48TSOP 12 x TH58NVG7H2HTA20 ( ) x 8 bit 3.3V 24bit/1024B SERIAL NAND DENSITY PART NUMBER PAGE SIZE VCC TEMPERATURE PACKAGE TC58CVG0S3HRAIG 3.3V ( ) x 8 bit TC58CYG0S3HRAIG 1.8V TC58CVG1S3HRAIG 3.3V ( ) x 8 bit TC58CYG1S3HRAIG 1.8V TC58CVG2S0HRAIG 3.3V ( ) x 8 bit TC58CYG2S0HRAIG 1.8V TBD 3.3V ( ) x 8 bit TBD 1.8V -40 C to 85 C 8WSON 6x8-40 C to 85 C 8WSON 6x8-40 C to 85 C 8WSON 6x8-40 C to 85 C 8WSON 6x8

15 15 SPECIFICATIONS Product list BENAND DENSITY PART NUMBER TECHN. PAGE SIZE VCC ECC TEMPERATURE PACKAGE TC58BVG0S3HTA00 ( ) x 8 bit 3.3V TC58BYG0S3HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 TC58BVG0S3HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 internal ECC TC58BVG0S3HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TC58BYG0S3HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TC58BVG0S3HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TC58BVG1S3HTA00 ( ) x 8 bit 3.3V TC58BYG1S3HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 TC58BVG1S3HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 internal ECC TC58BVG1S3HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TC58BYG1S3HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TC58BVG1S3HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TH58BVG2S3HTA00 ( ) x 8 bit 3.3V TC58BVG2S0HTA00 ( ) x 8 bit 3.3V TC58BVG2S0HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 TH58BVG2S3HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 TH58BVG2S3HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TH58BYG2S3HBAI4 ( ) x 8 bit 1.8V internal ECC -40 C to 85 C 63BGA 9 x 11 TC58BVG2S0HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TC58BYG2S0HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 TC58BVG2S0HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TC58BYG2S0HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TH58BYG2S3HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 TH58BVG3S0HTA00 ( ) x 8 bit 3.3V TH58BYG3S0HBAI4 ( ) x 8 bit 1.8V -40 C to 85 C 63BGA 9 x 11 TH58BVG3S0HTAI0 ( ) x 8 bit 3.3V -40 C to 85 C 48TSOP 12 x 20 internal ECC TH58BVG3S0HBAI4 ( ) x 8 bit 3.3V -40 C to 85 C 63BGA 9 x 11 TH58BVG3S0HBAI6 ( ) x 8 bit 3.3V -40 C to 85 C 67BGA 6.5 x 8 TH58BYG3S0HBAI6 ( ) x 8 bit 1.8V -40 C to 85 C 67BGA 6.5 x 8 e-mmc DENSITY PART NUMBER TECHN. JEDEC STANDARD TEMPERATURE PACKAGE THMNG5D1LBAIT -25 C to 85 C 153FBGA 11 x D 15nm JEDEC 5.0 THMNG5D1BAIL -25 C to 85 C 153FBGA 11.5 x 13 THMJG6C1LBAIL -25 C to 85 C 153FBGA 11.5 x D 15nm JEDEC 5.1 THMJG6C1LBAU7-40 C to 105 C 153FBGA 11.5 x 13 THMJG7C1LBAIL -25 C to 85 C 153FBGA 11.5 x 13 2D 15nm 16 THMJG7C2LBAU8 JEDEC C to 105 C 153FBGA 11.5 x 13 THGAMRG7T13BAIL 3D BiCS3-25 C to 85 C 153FBGA 11.5 x 13 THMJG8C2LBAIL -25 C to 85 C 153FBGA 11.5 x 13 2D 15nm 32 THMJG8C4LBAU8 JEDEC C to 105 C 153FBGA 11.5 x 13 THGAMRG8T13BAIL BiCS 3D NAND -25 C to 85 C 153FBGA 11.5 x 13 THMJG9C8LBAU8 2D 15nm -40 C to 105 C 153FBGA 11.5 x JEDEC 5.1 THGAMRG9T23BAIL BiCS 3D NAND -25 C to 85 C 153FBGA 11.5 x THGAMRT0T43BAIR BiCS 3D NAND JEDEC C to 85 C 153FBGA 11.5 x 13 UFS DENSITY PART NUMBER TECHNOLOGY JEDEC STANDARD TEMPERATURE PACKAGE 32 THGAF4G8N2LBAIR BiCS 3D NAND JEDEC C to 85 C 153FBGA 11.5 x THGAF8G9T43BAIR BiCS 3D NAND JEDEC C to 85 C 153FBGA 11.5 x THMJG9C8LBAU8 JEDEC 2.1 BiCS 3D NAND THGAMRG9T23BAIL JEDEC C to 85 C 153FBGA 11.5 x THGAF8T1T83BAIR JEDEC 2.1 BiCS 3D NAND THGJFCT1T44BAIL JEDEC C to 85 C 153FBGA 11.5 x THGJFCT2T84BAIC BiCS 3D NAND JEDEC C to 85 C 153FBGA 11.5 x 13

16 Toshiba Memory Europe GmbH Hansaallee Düsseldorf, Germany Further information business.toshiba-memory.com Copyright 2019 Toshiba Memory Europe. Product specifications are all subject to change without notice. Errors and omissions excepted.